PaperGoogle DeepMind · Google DeepMind
DeepMind AI agents accelerate cryptanalysis: two weaknesses in legacy RSA-1024; 3.5× faster 1024-bit root vs prior run
42 reads
- Published
- 2026-11-07
- Type
- Paper
- Organization
- Google DeepMind
- Source
- Google DeepMind
Why it matters
【Key points】
- On 2026-11-06 (17:20Z) Google DeepMind / Pushmeet Kohli’s X Article “Advancing the frontier of cryptanalysis” reported human-guided AI agents stress-testing legacy 1024-bit RSA: (1) signature forgery—once an attacker controls ~half+ of the signed block, PKCS#1 v1.5-style padding adds essentially no protection
- shorter controlled regions get a ~1600× theoretical improvement
- (2) batch factoring—~30× lower average cost per additional same-length 1024-bit key.
- Two technical papers posted.
- Same Shea et al. 1024-bit instance: first-root CPU ~391 core-years vs ~1380 (~3.5×), run by two AI agents in ~4 days (peaks ~300k cores).
- Modern 2048-bit+ RSA unaffected; point is how fast AI rewrites hardness assumptions.
【Our read】
Background
hardness margins usually move over years; the story is agent research throughput (3.5× CPU, large engineering) plus PKCS#11 interfaces ranked by caller-controlled bits—math-copilot tempo applied to crypto assumptions.
Peers
OpenAI e/1089 is autonomous Linux LPE find/patch; DeepMind sits in number theory/standards and stresses 2048+ remains safe while hardness is no longer a slow variable for standards bodies.
Impact
no immediate mainstream threat; raises continuous stress-testing expectations and a citable half-block threshold for signing APIs. Watch official blog, affine-window demos at crypto size, and post-quantum agent work. paper
【Verifiable】
Related developments
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